Complementary Doped Source-Based Reconfigurable Schottky Diode as an Equivalence Logic Gate.

Area of Science:

• Semiconductor device physics
• Nanoelectronics
• Solid-state electronics

Background:

• Reconfigurable devices are crucial for advanced integrated circuits.
• Existing reconfigurable transistors often involve complex structures with multiple gates.
• The need for simplified yet functional reconfigurable electronic components is growing.

Purpose of the Study:

• To propose and investigate a novel complementary doped source-based reconfigurable Schottky diode (CDS-RSD).
• To demonstrate the simplification of reconfigurable field-effect transistor structures while maintaining reconfigurable functionality.
• To explore the potential of CDS-RSD for enhanced logic gate circuit integration.

Main Methods:

• Device fabrication process proposal.
• Device simulation for performance verification.
• Investigation of CDS-RSD as a single-device two-input equivalence logic gate.

Main Results:

• Successful proposal of a novel CDS-RSD with a complementary doped source and metal silicide drain.
• Demonstration of a simplified structure compared to three-terminal reconfigurable transistors, utilizing only a program gate.
• Verification of device performance through simulation, highlighting its potential for logic gate applications.

Conclusions:

• The CDS-RSD offers a simplified approach to reconfigurable devices.
• This simplified structure is well-suited for improving logic gate circuit integration.
• The proposed device holds promise for future advancements in integrated circuit design.